Solution

Intelligent Risk Control Solution for Large Campus Events

Provides universities with AI-driven full-process risk control covering declaration, approval, execution, and review, achieving 60% faster approval and a 70% reduction in security incidents.

Negotiable

Contact for pricing

智能申报

AI自动解析申报内容,生成结构化风险清单,缩短审批周期。

风险前置

通过知识图谱与多模态分析,将风险管控从事后补救前移至事前预防。

全链闭环

覆盖申报、审批、执行、复盘全生命周期,实现管理闭环。

实时监测

结合IoT与AI视频分析,实时监测活动执行中的风险。

协同闭环

跨部门协同平台与应急指挥系统,实现高效联动。

自动复盘

事后自动生成复盘报告,持续优化管理流程。

Pain Points

When organizing large-scale events (such as school anniversaries, sports meets, academic conferences, and cultural performances), universities currently face the following core pain points in their application and risk management processes:

  1. Cumbersome Application Process, Low Efficiency: Traditional event applications rely on paper forms or simple OA systems, requiring sequential approvals from multiple departments such as the Security Office, Student Affairs Office, Logistics Department, and University Office. The process is lengthy. Statistics show that a medium-sized event takes an average of 5-7 working days to complete approval, severely hindering event preparation efficiency.

  2. Lagging Risk Identification, Reliance on Manual Experience: Safety risk assessments mostly depend on manual experience, lacking systematic and data-driven tools. It is difficult to achieve early warnings and quantitative assessments for key risk points such as event scale, venue capacity, crowd density, weather factors, and equipment safety. Hazards are often only discovered after an incident occurs.

  3. Difficult Cross-Departmental Collaboration, Severe Information Silos: Event application information is scattered across different departmental systems, lacking a unified data sharing and collaboration platform. Departments like Security, Logistics, and Publicity operate independently, leading to untimely and inaccurate information transfer. This often results in issues like "multiple applications, duplicate approvals" or "missing key information."

  4. Lack of Emergency Plans, Insufficient Response Capability: Most events lack digital emergency plans based on risk scenarios. In the event of an emergency (such as a crowd crush, fire, or extreme weather), on-site command and dispatch rely on manual communication, resulting in slow response times and low handling efficiency, making it difficult to ensure the safety of faculty and students.

  5. Insufficient Data Accumulation, Difficulties in Review and Improvement: After an event, relevant data (such as participant numbers, risk incidents, and handling records) lacks systematic archiving and analysis. This prevents the use of experience for future events, leading to the recurrence of similar problems.

Solution Overview

This solution is built on the core concept of "AI-driven, Process Re-engineering, Proactive Risk Management, Collaborative Closed Loop," aiming to create an intelligent application and risk control platform covering the entire event lifecycle. By integrating AI technologies such as Natural Language Processing (NLP), Knowledge Graphs, and Multimodal Data Analysis, it upgrades traditional passive and fragmented event management into an active and systematic intelligent governance system.

Overall Architecture: The solution adopts a "1+3+N" architecture – 1 unified intelligent hub (AI Decision Engine), 3 core capability platforms (Intelligent Application, Risk Control, Emergency Collaboration), and N business scenario applications (e.g., large gatherings, sports events, academic forums).

Design Philosophy: Starting from the event initiation, the AI automatically parses the application content and generates a structured risk checklist. The approval process incorporates intelligent recommendations and automatic validation to shorten the cycle. During the execution phase, IoT devices and AI video analysis monitor risks in real-time. After the event, a review report is automatically generated, forming a management closed loop.

Unique Value: Unlike traditional "point solutions" like OA or security systems, this solution achieves intelligent integration across the entire chain of "Application - Approval - Execution - Review." It shifts risk control from "post-event remediation" to "pre-event prevention," significantly reducing the incidence of campus safety incidents.

Solution Components

This solution is organically composed of the following core components, which work together to form a complete solution:

  • Intelligent Application Engine: Based on NLP technology, it automatically parses key information from event application forms (e.g., event type, scale, time, location, participants), generates structured data, and intelligently matches the approval process and required materials. It supports dual entry points via mobile and PC, enabling "one-click application, automatic routing."

  • Intelligent Risk Assessment Module: Utilizes Knowledge Graphs and historical data to build a campus event risk model. It conducts multi-dimensional risk assessments for each event (e.g., crowd density, venue capacity, weather impact, equipment safety), outputs risk levels and early warning suggestions, and assists in approval decisions.

  • Cross-Departmental Collaboration Workbench: A unified portal integrates approval nodes from departments like Security, Student Affairs, Logistics, and Publicity, supporting complex processes such as parallel approval, joint sign-off, and task transfer. It features built-in message push and pending task reminders to ensure real-time information synchronization and eliminate information silos.

  • AI Video Analysis and IoT Monitoring: During the event execution phase, it connects to existing campus cameras and IoT sensors (e.g., people counters, temperature/humidity sensors, smoke detectors). AI algorithms monitor crowd density, abnormal behavior, environmental changes, etc., in real-time and automatically trigger alerts.

  • Digital Emergency Plans and Command Dispatch: Pre-sets multiple emergency plans based on risk scenarios (e.g., evacuation, medical rescue, fire linkage), supporting one-click activation. Combined with GIS maps and personnel positioning, it enables visualized command and dispatch, improving emergency response efficiency.

  • Data Insights and Review Reports: After an event, it automatically aggregates application data, approval records, risk incidents, handling logs, etc., to generate multi-dimensional review reports. Through trend analysis and comparison, it provides data support for school management decisions.

  • Training and Operational Support: Provides tiered training courses for administrators, approvers, and event organizers, along with 7x24 technical support to ensure smooth implementation and continuous optimization of the solution.

Implementation Roadmap

This solution adopts a "phased, incremental" implementation strategy to ensure a smooth transition and manageable risks. The recommended total duration is 6-8 months, detailed as follows:

PhaseObjectiveKey ActivitiesMilestoneEstimated Duration
Phase 1: Foundation SetupComplete core platform deployment and data integration1. Deploy Intelligent Application Engine & Collaboration Workbench
2. Integrate with existing school OA, Academic Affairs, and Security systems
3. Configure basic approval workflows and permission system
Platform launch, supporting basic application and approval functions2 months
Phase 2: AI Capability InjectionImplement intelligent risk assessment and early warning1. Train risk model (based on historical data & expert rules)
2. Integrate AI Video Analysis module
3. Connect IoT device data
Risk module launch, supporting automatic assessment and early warning2 months
Phase 3: Emergency & ReviewEnhance emergency command and data insight capabilities1. Deploy Digital Emergency Plan module
2. Configure GIS maps and personnel positioning
3. Launch Review Report function
Emergency and review functions available1.5 months
Phase 4: Optimization & PromotionSystem tuning and campus-wide rollout1. Collect user feedback, iterate and optimize
2. Conduct campus-wide training and promotion
3. Establish operational management system
System stable, covering all campus events1.5 months

Risk Management: A review will be conducted after each phase, and the plan for the next phase will be adjusted based on feedback. A dedicated project team, led by university leadership, will be established to ensure smooth cross-departmental coordination.

Expected Outcomes

Through the implementation of this solution, significant results are expected in the following areas:

Short-Term Outcomes (1-3 months)

  • Event application approval cycle shortened by over 60%, from an average of 5-7 working days to within 2 working days.
  • Cross-departmental collaboration efficiency improved by 50%, reducing redundant communication and information omission.
  • Risk identification coverage rate increased to over 90%, reducing reliance on manual experience.

Long-Term Value (6-12 months)

  • Safety incident rate for large campus events reduced by over 70% (based on projections from similar project data).
  • Emergency response time shortened to within 5 minutes, handling efficiency improved by 80%.
  • Formation of a reusable event risk knowledge base, providing continuous data support for school safety management.
  • Estimated annual savings of [To be determined] in labor costs for the school, and reduction of potential losses caused by safety incidents.

Comparison of Effects:

IndicatorBefore ImplementationAfter Implementation
Approval Cycle5-7 days<2 days
Risk Warning Coverage<30%>90%
Emergency Response Time>15 minutes<5 minutes
Safety Incident RateBaselineReduced by 70%

Reference Cases

The following are successful cases in similar scenarios for reference:

  1. "Smart Campus Security Control Platform" Project at a Top 985 University: To address the management pain points of large events (e.g., school anniversaries, sports meets), an intelligent application and risk warning system was deployed. Post-implementation, event approval efficiency improved by 65%, and the number of safety incidents during large events that year was zero. The project was awarded the "Safe Campus" demonstration project title by the Ministry of Education.

  2. "Integrated Event Risk Control Platform" for a Provincial Education Group: Covering over 20 affiliated primary and secondary schools, it uses AI video analysis and IoT monitoring to achieve real-time crowd density warnings during events. Within one year of launch, it successfully warned and handled 3 potential crowd crush incidents, ensuring the safety of tens of thousands of students and teachers.

  3. "Intelligent Security Command System" for a Major Sports Event: Although not a campus scenario, its AI-based risk assessment and emergency dispatch logic hold significant reference value. The system achieved the goal of "zero major safety incidents" during the event, reducing emergency response time to 3 minutes.

Note: The above cases are compiled based on public information, and specific data has been desensitized.

Solution Architecture

How Components Work Together

Intelligent Risk Control Solution for Large Campus Events
01

智能申报引擎

基于NLP自动解析活动信息,智能匹配审批流程,实现一键申报与自动流转

02

风险智能评估模块

利用知识图谱与历史数据,多维度量化评估活动风险,输出预警建议

03

跨部门协同工作台

统一门户集成多部门审批节点,支持并行会签与消息实时同步

04

AI视频与物联网监测

对接摄像头与IoT传感器,实时监测人群密度、异常行为与环境变化

05

数字化应急指挥调度

预设多套应急预案,结合GIS地图实现一键启动与可视化指挥

06

数据洞察与复盘报告

自动汇总活动全流程数据,生成多维度复盘报告,支撑管理决策

07

培训与运营支持

提供分层培训课程与7×24小时技术支持,保障方案顺利落地

Expected ROI

该方案投入产出比约1:4,预计6-12个月收回全部投资,同时显著降低校园安全风险并提升管理效率

审批效率提升

60%-70%%

AI自动解析与智能流转缩短审批周期

人力成本节省

20-50万元/年

减少审批与安保人工投入

安全事件降低

70%%

风险前置预警减少事故发生

应急响应时间缩短

60%-70%%

数字化预案与指挥调度提升效率

风险识别覆盖率

90%%

AI模型覆盖多维度风险点

跨部门协同效率提升

50%%

统一平台消除信息孤岛

Revenue Growth
预计减少安全事件潜在损失70%以上
Cost Savings
年均节省人力成本30%-50%
Payback Period
6-12个月

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